per_user_usage.tsx conflicted with the server pagination that already landed on
staging (default 50 rows, stale-response guard, tag and page-size resets). Took
the staging version and dropped this PR's now-redundant 25-row test for it
Claude-Session: https://claude.ai/code/session_01HkaXiD6gssHnx3kqu1rR8C
Generalizes the heuristic_v2 ceiling from #39468 into a capability table whose
records own their in-process predicate, SQL spelling and refusal wording. The
existing heuristic_v2 capability keeps its own one-router ceiling. A single
customization capability combines operator-defined tier definitions with every
operator-written part of the classifier prompt. The prompt half only applies to
classifier types that call an LLM. The shipped default prompt, classification
rubric presets, tier-label renames and tier model choices remain ungated.
Scope every enforcement point to actual complexity routers. A model-less PATCH
or legacy update now decrypts the stored model before accepting strategy-router
settings, so a regular model cannot acquire a router config or spend a license
slot. Under the existing advisory lock, the cross-pod candidate query returns
only model scalars and the count decrypts and classifies them in process; old
non-router rows carrying a capability-shaped config no longer block a real
complexity router. The signed auto_router license feature makes both ceilings
unlimited.
The reset job evicts the cached end-user object only from its own worker's
in-memory cache (plus Redis), so every other uvicorn worker and replica keeps
the pre-reset spend for up to user_api_key_cache_ttl (60s by default). Those
workers pass that stale spend as fallback_spend, and since the authoritative
floor read returned None for spend:end_user: keys, get_current_spend handed
the stale value straight back and the end user kept getting 429 after the
rollover on every worker but the one that ran the reset.
The floor read now consults LiteLLM_EndUserTable.spend for end-user counters,
the same way keys, teams, users, and orgs already read their rows. It runs only
when the shared counter sits below the cached spend (a reset or a Redis
restart) and stays behind the existing 5s in-process marker, so the normal
request path still does no DB read. Cold end-user counters keep seeding from
the cached object rather than the row, so from_db is unchanged for them.
All Models now pushes the model group, access group and wildcard filters into
/v2/model/info (new optional access_group and wildcard_only params) so the
server total_count matches the rendered rows. Request Logs defaults to 25,
uses the shared page size options and counts rendered rows in the footer.
Deleted Teams gets the shared DataTable server pagination footer instead of a
hard-coded page size of 100. Per-user usage and the remaining unbounded list
tables get paginationMode so the size selector renders.
Resolves LIT-4738
Co-Authored-By: Devin AI <158243242+devin-ai-integration[bot]@users.noreply.github.com>
Without the auto_router feature in the signed enterprise license a proxy may hold
one complexity router with classifier_type heuristic_v2 across config.yaml and the
DB; with it the limit is lifted. The ceiling is derived once from LicenseCheck and
handed to the Router, which refuses the extra router at registration. config.yaml
over the limit refuses to start, and /model/new, /model/update and
PATCH /model/{id}/update refuse the write with a 403 before touching the DB.
Expiry follows the existing max_users/max_teams pattern: judged when the
license is verified, not on every call, and a verify that rejects the license
(expired or unreadable) leaves no signed payload behind. The rollback after a
failed upsert re-admits state that was already serving, so it is exempt from the
ceiling: an edit that fails, including one refused by a ceiling that has since
tightened, leaves the router serving its previous configuration.
A write that leaves a row on heuristic_v2 under a limited license runs in one
transaction that takes a Postgres advisory lock before counting the DB rows plus
this proxy's config.yaml routers, so concurrent writes on any pod cannot both
claim the sole slot and no surplus row is ever persisted.
Only the row insert runs under that lock: the team model bookkeeping, which
needs a second pool connection, runs after the transaction has committed.
PATCH /model/{id}/update follows the same order as create: the row is written
through the slot first and the team's model list is updated only afterwards, so
a refused write leaves the team as it was.
The slot transaction bypasses the repository's publish-on-write, so it
publishes the config change once after commit, as delete_team_models does.
Adds a configurable password-strength policy (default: min 12 chars,
upper/lower/number/special, all individually toggleable, floored at 8
so a misconfigured minimum cannot disable the length check, and
unicode-aware so an accented letter cannot satisfy the special-
character requirement) enforced on every path that sets a local
user's password: /user/update, /user/bulk_update, and the invitation
onboarding claim flow.
Adds general_settings.disable_password_login_when_sso_enabled, which
rejects username/password login on /login, /v2/login and /v3/login
(including the UI_USERNAME/UI_PASSWORD admin fallback) once ANY
configured SSO provider is FULLY ready: every companion secret/
endpoint an OAuth provider needs, checked independently per provider
so a stray leftover client id for an unused provider can't mask a
different, fully configured one; and for SAML, the optional
python3-saml runtime being importable, checked without letting a
fully-missing package's ModuleNotFoundError take down password login
itself. SSO becomes the enforced boundary for interactive UI access
without an incomplete, mixed, or half-installed SSO setup locking
every admin out or breaking login outright. Master-key API access is
untouched, and unsetting the setting plus a restart restores password
login as the documented recovery path.
Resolving github_copilot/chatgpt names through get_llm_provider runs the
provider's OAuth device flow synchronously on the event loop. Adopt the
declared provider in PatternMatchRouter.get_pattern, which the auth
layer's zero-cost budget check walks on every request against wildcard
routers, and in /utils/supported_openai_params.
Direct access on /model/info was read from the user record alone, so an
unrestricted user calling with a key limited to a few models saw every non-team
deployment, including ones the key gets a 403 on. Resolve the key's grant the
same way and intersect the two.
Resolving a grant now also expands access groups, which the key path needs and
the user path was missing.
Claude-Session: https://claude.ai/code/session_01XL7LBFEew4wi8gphVCDq6n
Team-scoped deployments keep the internal model_name_{team_id}_{uuid} routing key and expose the public name in model_info.team_public_model_name. The dashboard links team model chips with the public name, so the exact filter now matches either name via the existing helper.
The registry key was never copied into ModelInfo, so /v1/model/info reported
null for every model, /model_group/info reported false for every group, and
litellm.supports_parallel_function_calling() returned False for provider-prefixed
entries that declare true. Copy it like every other capability flag and pin the
three surfaces with regression tests.
Resolves LIT-6340
A complexity-router setting placed beside complexity_router_config, or inside a
tier entry's litellm_params, is read by nobody: the router loads its settings only
from litellm_params.complexity_router_config. It does not stay inert. The
alias-marker forwarding and the per-tier param spread carry every unrecognized key
onto the outbound request, and all_litellm_params only knows the outer names, so
the key reaches the provider as an unknown body field and every call through that
model group fails with an error naming an internal config key.
Guard the whole set, derived from ComplexityRouterConfig.model_fields so a field
added later is covered, and scoped to complexity-router deployments because the
names only mean this there (embedding_model is a legitimate flat param on an
s3_vectors vector store). Scope is read from the same merged field view the naming
check is judged on, so a router named only by its default model is in scope and a
field added to the required-field table is covered without another edit. The write
endpoints reject with a 400 naming the keys and where they belong, config.yaml
refuses to start for the same reason max_agentic_loops does, and a tier entry is
judged by the config model itself.
An already-stored deployment keeps loading, so an upgrade cannot take a running
gateway down over a row that was written before the gate existed.
* feat(health): opt-in model-group allowlist for background health checks and health-check routing
* fix(health): merge shared health states per writer scope instead of replacing
* refactor(health): drop restating comment and parameterize test scope annotations
* chore: remove stray generated prisma migration file
* fix(health): merge health states against the Redis snapshot, not the pod-local copy
* fix(health): fall back to the pod-local snapshot when the Redis read returns nothing
reload_search_tools_from_db is a read-modify-write of the shared llm_router
global: it reads the whole table, merges the config tools in, and replaces
router.search_tools wholesale. Two of those interleaving lets the older
snapshot's assignment land last and put back a tool the newer one deleted, so a
revoked tool keeps serving on the provider key it carried until the next reload.
Take MODEL_RECONCILE_LOCK, which add_deployment already uses to serialize the
same shape of work on the same global. It has to go on this entry point rather
than in _init_search_tools_in_db, because _init_non_llm_objects_in_db calls that
while already holding the lock and asyncio.Lock is not reentrant.
A separate search-tools-only lock would not close the race: the periodic
reconcile reaches _init_search_tools_in_db under MODEL_RECONCILE_LOCK, so only
that same lock orders an endpoint refresh against a cron tick.
Ordering across workers is unchanged and still reconciles on the next tick.
Creating a search tool through the UI only wrote the row; the router was updated
solely by the add_deployment job, so the tool was unusable for up to
PROXY_CONFIG_RELOAD_INTERVAL_SECONDS (30s by default) even on the worker that
served the write. Tools declared in config.yaml load straight into the router at
startup, which is why they never showed the delay.
The create, update and delete endpoints now refresh the router inline, matching
what the MCP server endpoints already do. The refresh is best-effort: the row is
already committed, so a failure must not surface as a 500 and push the caller
into a retry that creates duplicates.
Two related gaps go with it. _init_search_tools_in_db skipped the router update
whenever the merged list came back empty, so deleting the last search tool left
it live in memory forever. And in store_model_in_db-off deployments the
add_deployment job is never scheduled, so DB-backed search tools never reached
the router at all; that branch now loads them at startup and keeps them fresh on
its own interval, the same way MCP servers already do.
Adds `general_settings.model_list_healthy_only`, which makes `/models`,
`/v1/models/{id}` and `/model/info` hide models whose backing deployments are
all marked unhealthy by background health checks, for every caller, without
each client having to pass `healthy_only=true`. `/model/info` also gains the
per-request `healthy_only` parameter that `/v1/models` already had.
Everything here is opt-in. With the setting absent, the endpoints take the same
code path they do today and no health lookup runs at all.
The listing filter reads the deployment health cache, which until now was only
populated when `enable_health_check_routing` was on, so `healthy_only=true`
silently did nothing in a plain `background_health_checks` setup. The setting
now also keeps that cache filled. That is a pure write: every routing-time
reader is itself gated on `enable_health_check_routing`, and the cooldown and
failure bookkeeping stays behind that flag, so routing is untouched.
Filtering stays presentation-only and fails open. A hidden model is still
callable, and missing, stale or empty health state hides nothing.
The ceiling used to go through `int(... or 3)`, so anything `int()` accepted
worked. Tightening the new shared validator to `isinstance(int)` turned a
config that boots today into a proxy that refuses to start, because
`max_agentic_loops: os.environ/MAX_AGENTIC_LOOPS` is resolved to a string
before it reaches either check, and a YAML-quoted "5" is a string too.
Accept ints, integral floats, and strings that parse to a whole number. Keep
refusing bools, fractional floats, words, and anything below 1.
The ceiling was only checked at the feature level, on
litellm_settings.websearch_interception_params. The per-deployment
litellm_params.max_agentic_loops, which wins over it, went straight into
int(kwargs.get("max_agentic_loops", 3) or 3), so a 0 was swallowed by the
falsy fallback and read as the default 3. Asking for the tightest ceiling
handed you the loosest one. A non-integer booted the proxy and then failed
every request to that model with "invalid literal for int() with base 10".
Both settings now share one validator, which names the field it rejected,
and the per-deployment value is checked while the model list is read at
startup so a bad value stops the proxy rather than surfacing per request.
The check sits in load_config rather than on LiteLLM_Params because the
proxy builds its router with ignore_invalid_deployments=True, where a
validation error drops the deployment silently instead of refusing to
start. This is the same placement the complexity_router_config plugin
check already uses.
Chat completions read the same key through a separate path that turned 0
into 1 and true into a ceiling of 1, so it now shares the validator too
and the key means one thing on both surfaces.
`pytest.raises(Exception)` with no `match=` passes on any error that broad. A
TypeError from a refactor, a botched fixture, an import that moved: all of them
read as the rejection the test claims to police, so the test goes green for the
wrong reason and stays green after the behaviour it guards is gone.
PT011 closes that gap for the 317 sites B017 could not reach, because B017 only
fires on a single-statement body with no `as e` binding. Each pattern here is the
message the code actually raised, recorded by running the sites under a plugin
that logged the concrete type and text per call site, so the assertions describe
observed behaviour rather than a guess. Where a site raises more than one message
across its parametrize cases, the pattern is an alternation of what was seen;
where the exception carries an empty `str()` and puts the text on `.message`, the
site keeps a narrow `noqa` with the reason.
PT014 removes four parametrize cases that were listed twice. The duplicate re-runs
an assertion that already passed, and it usually marks a case someone meant to
vary and forgot to edit.
* test(lint): ban blind pytest.raises(Exception) with ruff B017
A bare pytest.raises(Exception) accepts whatever the body throws. The TypeError
a refactor introduces satisfies it exactly as well as the rejection the test was
written for, so the crash reads as a pass and the test never goes red.
All 111 existing sites are narrowed here. A runtime probe recorded the concrete
exception each one actually catches, and each site now names that type. Where
the code under test genuinely raises a bare Exception, the site pins a stable
slice of the message with match= instead.
Two sites tell on themselves. The shared responses-API cancel test raises
"custom_llm_provider is required but passed as None" rather than talking to a
provider at all, because cancel_responses takes a provider, not a model. And
test_bedrock_guardrails_with_streaming was the only test in its file still
passing without AWS credentials, because the NoCredentialsError boto3 raised
long before the guardrail ran satisfied the blind raises.
* fix(test): widen the openai batch-dispatch assertion to OpenAIError
The narrowed NotFoundError only holds where OPENAI_API_KEY is set. Without one
the SDK raises OpenAIError while building the client, long before any 404, so CI
went red. OpenAIError covers both and still rejects a TypeError from a refactor.
tiktoken's BPE merge loop is quadratic in the length of a single regex piece, so a long
run of one repeated character turns a multi-MB payload into minutes of CPU. Encoding in
bounded chunks makes that linear, at a drift of at most ~1 token per chunk boundary.
Chunking alone only makes the stall shorter, so the async paths now count in a worker
thread: tiktoken releases the GIL for its Rust encode, so the loop keeps serving other
requests while a count is in flight. The /utils/token_counter endpoint awaits the new
atoken_counter, and the router's async deployment selection counts off-loop and hands
the result to _pre_call_checks instead of making it count inline.
The chunk size knob is bounded to [1, 4096]: a non-positive value used to raise or
silently report zero tokens, and an arbitrarily large one restored the quadratic cost
this exists to remove. Out-of-range and unparseable values warn and fall back to 1024.
Co-authored-by: Yassin Kortam <yassin@berri.ai>
* feat(ui): let admins supply a dark-mode variant of their custom logo
A deployment branded through UI_LOGO_PATH got its light artwork on the
dark sidebar, and there was nothing an admin could set to change that.
Adds UI_LOGO_PATH_DARK, exposed as the logo_url_dark theme setting and a
second field on the UI theme page. /get_image now walks an ordered list
of candidates for the requested theme and serves the first usable one:
the dark logo, then the light logo, then the bundled default.
Falling through rather than failing is the point. An admin who never
sets a dark logo keeps their own light one instead of reverting to
LiteLLM's, and a dark logo that goes missing later degrades to their
light logo rather than dropping their branding entirely.
* fix(ui): recover from a dark logo the browser cannot load
A dark logo given as an http(s) URL is loaded by the browser straight
from the sidebar, so it never passes through the proxy's fallback chain.
A URL that 404s left a broken image where the admin's light logo should
have been, while the same logo given as a local path fell back cleanly.
The sidebar now remembers the dark URL that failed and drops to the light
logo, matching how the proxy resolves an unusable dark logo and how the
provider Logo component already handles a broken image.